Radiation gasdynamics of planetary nebulae -- VI. The evolution of aspherical planetary nebulae
arXiv:astro-ph/9506033 · doi:10.1093/mnras/277.1.173
Abstract
This paper reports the results of the numerical study of the formation of aspherical Planetary Nebulae through the Generalised Interacting Winds Model, taking into account the effects caused by the evolving central star and fast wind. The results show for the first time that aspherical nebulae do form within the required time scale. Consideration of the development of the nebula shows that in the early stages it is the ionization of the aspherical AGB wind that contributes considerably to the shaping of the nebula. Furthermore the passing through of the ionization front may modifies the density distribution in the slow wind, leading to the formation of a surrounding envelope, and sometimes a different morphology for the nebula than was to be expected from the initial conditions. I consider how the different phases of ionization fronts and wind swept bubbles can be observationally distinguished.
21 pages, uuencoded compressed Postscript, without the figures; accepted by MNRAS; also available (_with_ included figures) in ftp://axp1.ast.man.ac.uk/outgoing/gm/mn_pnVI.v2f.ps.Z and on http://saturn.ma.umist.ac.uk/Preprints2.html/
Cited by in corpus (20)
- The Evolution of Supernovae in Circumstellar Wind Bubbles II: Case of a Wolf-Rayet star
- Investigating the Near-Infrared Properties of Planetary Nebula II. Medium Resolution Spectra
- Low-ionization structures in planetary nebulae: confronting models with observations
- Shaping Proto-Planetary and Young Planetary Nebulae with Collimated Fast Winds
- Bipolar Planetary Nebulae from Outflow Collimation by Common Envelope Evolution
- Formation and X-ray emission from Hot Bubbles in Planetary Nebulae. I. Hot Bubble formation
- Low-ionization structures in planetary nebulae - I: physical, kinematic and excitation properties
- Collimated Outflow Formation via Binary Stars. 3-D Simulations of AGB Wind and Disk Wind Interactions
- A hydrodynamical study of multiple-shell planetary nebulae. III. Expansion properties and internal kinematics: Theory versus observation
- The 3-D ionization structure and evolution of NGC 7009 (Saturn Nebula)
- Kinematics of the H2O masers at the centre of the PN K3-35
- Time-dependent ejection velocity model for the outflow of Hen 3--1475
- The kinematics of the planetary nebula BD+30 3639
- High-velocity regions in planetary nebulae
- A precessing jet model for the PN K 3-35: simulated radio-continuum emission
- Observations and 3D Hydrodynamical models of planetary nebulae with Wolf Rayet type central stars
- An asymmetric jet launching model for the protoplanetary nebula CRL 618
- Observational Study of the Multistructured Planetary Nebula NGC 7354
- Modelling the 3D morphology and proper motions of the planetary nebula NGC 6302
- Asymmetry and Inhomogeneity in Proto and Young Planetary Nebulae